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First published online September 24, 2003; 10.1105/tpc.014662

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The Plant Cell, Vol. 15, 2320-2332, October 2003, Copyright © 2003,
American Society of Plant Biologists

Rapid Induction of Distinct Stress Responses after the Release of Singlet Oxygen in Arabidopsis

Roel G. L. op den Campa, Dominika Przybylaa, Christian Ochsenbeina, Christophe Laloia, Chanhong Kima, Antoine Danona, Daniela Wagnera, Éva Hidegb, Cornelia Göbelc, Ivo Feussnerc, Mena Natera and Klaus Apel1,a

a Institute of Plant Sciences, Plant Genetics, Swiss Federal Institute of Technology, CH 8092 Zürich, Switzerland
b Institute of Plant Biology, Biological Research Center, Hungarian Academy of Sciences, H-6701 Szeged, Hungary
c Albrecht-von-Haller-Institute for Plant Sciences, Plant Biochemistry, Georg-August-University Göttingen, D-37077 Göttingen, Germany

1 To whom correspondence should be addressed. E-mail klaus.apel{at}ipw.biol.ethz.ch; fax 41-1-632-1239

The conditional fluorescent (flu) mutant of Arabidopsis accumulates the photosensitizer protochlorophyllide in the dark. After a dark-to-light shift, the generation of singlet oxygen, a nonradical reactive oxygen species, starts within the first minute of illumination and was shown to be confined to plastids. Immediately after the shift, plants stopped growing and developed necrotic lesions. These early stress responses of the flu mutant do not seem to result merely from physicochemical damage. Peroxidation of chloroplast membrane lipids in these plants started rapidly and led to the transient and selective accumulation of a stereospecific and regiospecific isomer of hydroxyoctadecatrieonic acid, free (13S)-HOTE, that could be attributed almost exclusively to the enzymatic oxidation of linolenic acid. Within the first 15 min of reillumination, distinct sets of genes were activated that were different from those induced by superoxide/hydrogen peroxide. Collectively, these results demonstrate that singlet oxygen does not act primarily as a toxin but rather as a signal that activates several stress-response pathways. Its biological activity in Arabidopsis exhibits a high degree of specificity that seems to be derived from the chemical identity of this reactive oxygen species and/or the intracellular location at which it is generated.




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